CN118349618A - A real-time display method of geospatial information based on collaborative office software - Google Patents

Abstract

The present application provides a method for real-time display of geographic spatial information based on collaborative office software, which relates to the field of geographic information system visualization technology, and is used to query and display geographic information data in collaborative office software, including the following steps: obtaining input text data, identifying address keywords and data keywords in the text data; generating an address to be queried according to the address keyword, and generating a data category to be queried according to the data keyword; calling a GIS plug-in to obtain the geographic information data corresponding to the data category to be queried of the address to be queried in real time; and displaying the geographic information data in real time in the information display area of the collaborative office software. Through the method of the present application, not only can the user not need to perform switching operations, but also the efficiency of the use of local computing resources can be improved and the degree of parallelism in the use of computing resources can be reduced. In addition, it is also beneficial to reduce the impact of network bandwidth on the response speed of related data requests.

Description

A real-time display method of geospatial information based on collaborative office software

Technical Field

The present application relates to the field of geographic information system visualization technology, and specifically to a real-time display method of geographic spatial information based on collaborative office software.

Background technique

GIS (Geographic Information System or Geo-Information system) is a specific and very important spatial information system. With the support of computer hardware and software systems, it is a technical system that collects, stores, manages, calculates, analyzes, displays and describes relevant geographical distribution data in the whole or part of the earth's surface space.

With the gradual development and upgrading of remote sensing technology, Internet technology and computer technology, the development of GIS industry tends to be specialized and refined. Web GIS is the product of Internet technology applied to GIS development and is an important part of modern GIS technology. Web GIS accepts GIS service requests from client browsers through Web servers and transmits the requests to GIS servers. GIS servers extract relevant data from GIS databases and convert the extracted relevant data into HTML pages or directly return them to clients through Web servers (existing Web GIS clients are generally browsers, which solve the sharing and distribution capabilities of GIS basic data, realize the cross-platform of geographic information systems, and promote and popularize the application of geographic information systems).

Collaborative office software is a kind of Internet/Intranet technology. Its main function is to provide a convenient and fast information sharing platform for internal personnel of an enterprise and promote efficient collaborative work. Collaborative office software is an important tool that uses modern network technology to improve the efficiency of enterprise collaborative work, reduce operating costs, and optimize enterprise management and decision-making. At present, most collaborative office software provides browser-based access.

In actual application, such a requirement often arises: that is, it is necessary to display the geographic related information of a certain location in real time while using collaborative office software. The existing operation method is generally based on the browser of the same client, opening the web page of the collaborative office software and the web page of Web GIS at the same time, and then switching between different pages to display the text related to the collaborative office software and the real-time display of the geographic information related to WebGIS.

This will lead to the following problems:

First, when presentation is needed, it is necessary to switch between collaborative office software and Web GIS, which not only results in poor presentation effects but also makes the operation cumbersome.

Second, collaborative office software and Web GIS both rely on the same client browser and are limited by the use of local computing resources.

Third, since collaborative office software and Web GIS are used simultaneously, the response speed of related data requests is affected by the network bandwidth.

Summary of the invention

In order to solve the technical problems in the related art, the present application provides a method for real-time display of geospatial information based on collaborative office software. Through the method of the present application, not only can the user not need to perform switching operations, but also the efficiency of using local computing resources can be improved and the degree of parallel use of computing resources can be reduced. In addition, it is also helpful to reduce the impact of network bandwidth on the response speed of related data requests.

In order to achieve the above purpose, the technical solution adopted in this application is:

A method for real-time display of geographic spatial information based on collaborative office software is used to query and display geographic information data corresponding to a data category to be queried of a corresponding address to be queried in the collaborative office software according to input text information, and comprises the following steps:

Acquire input text data, and identify address keywords and data keywords in the text data;

Generate the address to be queried based on the address keyword, and generate the data category to be queried based on the data keyword;

Call the GIS plug-in to obtain the geographic information data corresponding to the data category to be queried of the address to be queried in real time;

Display geographic information data in real time in the information display area of collaborative office software.

Optionally, the method further comprises:

Encapsulate the geographic information system module as a GIS plug-in of the collaborative office software, and install and load the GIS plug-in in the collaborative office software;

The development kit corresponding to the GIS plug-in is encapsulated on the server side of the collaborative office software, and a global object tool class is constructed in the development kit, wherein the global object tool class includes an atmospheric environment information object, an image layer information object, a terrain layer information object, a surface area information object, a place name and landmark information object, and an address coordinate information object;

The server of the collaborative office software and the GIS plug-in communicate asynchronously, so that the geographic information data acquired by the server of the collaborative office software is transmitted to the GIS plug-in.

Optionally, the asynchronous communication between the server of the collaborative office software and the GIS plug-in specifically includes:

For the server where the development package is located:

Step S1-1: First create a Socket instance and bind it to a port number, start listening through the Listen method and set the listening quantity threshold;

Step S1-2: Use Begin Accept and End Accept to asynchronously monitor the client where the GIS plug-in is located. When a client connects, the callback function is automatically called. At this time, the heartbeat starts and the client's Socket and heartbeat information are added to the global dictionary.

Step S1-3: When a client successfully connects in step S1-2, asynchronous operation can be started and data from the client can be received through BeginReceive and End Receive; after receiving data from the client, the callback function is automatically called;

Step S1-4: Use Begin Send and End Send to send data. After the data is sent successfully, the callback function is automatically called. The EndSend method returns the number of bytes sent successfully.

The client for the GIS plug-in includes:

Step S2-1: Create a new Socket instance and start to use Begin Connect and End Connect to asynchronously connect to the server. When the connection is successful, the callback function is automatically called to start the heartbeat and receive and send data.

Step S2-2: Use Begin Send and End Send to send data. After the data is sent successfully, the callback function is automatically called. The EndSend method returns the number of bytes sent successfully.

Step S2-3: Receive data from the client through Begin Receive and End Receive; after receiving the data from the client, automatically call the callback function.

Optionally, in step S1-3,

The server receives 1024 bytes each time, and according to the Available attribute, if it is determined that the received data is greater than 1024 bytes, the received data is concatenated, and at the same time, according to the Available attribute, the number of bytes that can be read is determined, and if it is less than or equal to 0, it indicates that the data reception is complete. Optionally, the method also includes:

The data categories to be queried include: subjects to be queried, time conditions and data display conditions;

The subjects to be queried include: atmospheric environment information, GIS image layer information, GIS terrain layer information, area information, place name and landmark information, and address coordinate information;

The time conditions include: time conditions based on years, time conditions based on quarters, time conditions based on months, time conditions based on days, time conditions based on hours, time conditions based on minutes and time conditions based on seconds;

The data display conditions include: display conditions arranged one by one in the positive order of time conditions, and display conditions arranged one by one in the reverse order of time conditions.

Optionally, the data display condition also includes:

The comparison display conditions of a certain subject to be queried of multiple addresses to be queried; or,

A certain subject to be queried of multiple addresses to be queried is displayed in a comparative manner in positive or reverse order according to the time condition.

Optionally, after calling the GIS plug-in to obtain in real time the geographic information data corresponding to the data category to be queried of the address to be queried, the method further includes:

A web page hyperlink is generated based on the acquired geographic information data, and the web page hyperlink points to a web page corresponding to the real-time geographic information of the address to be queried.

Optionally, the element content in the web page hyperlink is several characters in the geographic information data displayed in the information display area of the collaborative office software, the target attribute in the web page hyperlink is the web page address corresponding to the real-time geographic information of the address to be queried, and the href attribute in the web page hyperlink is set to an absolute path.

Optionally, real-time display of geographic information data in the information display area of collaborative office software specifically includes:

Divide the geographic information data into a first area, a second area and a third area for display, wherein the first area is used to display the address to be queried, and the second area is used to display the address coordinates of the address to be queried;

The third area is used to display the subject to be queried corresponding to the address to be queried in real time, and the subject to be queried includes any one of the following subjects: atmospheric environment information, GIS image layer information, GIS terrain layer information, area information, place name and landmark information.

Optionally, the collaborative office software is any one of the following software:

Office365, Office based on Kedao Cloud, WPS Office, Page Office, Only office.

The beneficial effects of this application include:

1. First, this application encapsulates Web GIS as a plug-in for collaborative office software, so that when the relevant geographic information of a certain location needs to be displayed in real time, there is no need to switch between the collaborative office software and Web GIS. Users can simultaneously display relevant text and real-time display of WebGIS related geographic information only in the collaborative office software interface.

Second, the GIS plug-in is dependent on collaborative office software, but also has a certain degree of independence. Thus, on the one hand, in the process of using collaborative office software for data processing (e.g., editing documents and pictures, calculating tables, etc.), the GIS plug-in will not use local computing resources. The GIS plug-in will only use local computing resources when it is called, which is conducive to improving the efficiency of local computing resources and reducing the degree of parallel use of computing resources. On the other hand, through the method of the present application, collaborative office software and Web GIS will only be used at the same time when the GIS plug-in is called, which is conducive to reducing the impact of network bandwidth on the response speed of related data requests.

2. Other beneficial effects or advantages of the present application will be described in detail in the specific implementation manner.

BRIEF DESCRIPTION OF THE DRAWINGS

In order to more clearly illustrate the embodiments of the present application or the technical solutions in the prior art, the drawings required for use in the description of the embodiments will be briefly introduced below. Obviously, the drawings described below are only some embodiments of the present application. For those skilled in the art, other drawings can be obtained based on these drawings without paying any creative labor.

in:

FIG1 is a schematic diagram of a step flow of a method for real-time display of geographic spatial information based on collaborative office software provided in an exemplary embodiment of the present application.

Detailed ways

In order to make the purpose, technical solutions and advantages of the embodiments of the present application clearer, the technical solutions in the embodiments of the present application will be clearly and completely described below in combination with the drawings in the embodiments of the present application. Obviously, the described embodiments are only part of the embodiments of the present application, not all of the embodiments.

Therefore, the following detailed description of the embodiments of the present application provided in the accompanying drawings is not intended to limit the scope of the present application for protection, but merely represents selected embodiments of the present application. Based on the embodiments in the present application, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present application.

In addition, the terms "including" and "having" and any variations thereof mentioned in the description of the present application are intended to cover non-exclusive inclusions. For example, a process, method, system, product or device that includes a series of steps or units is not limited to the listed steps or units, but optionally includes other steps or units that are not listed, or optionally includes other steps or units that are inherent to these processes, methods, products or devices. Among them, it should also be noted that in the embodiments of the present application, words such as "exemplary" or "for example" are used to represent examples, illustrations or explanations. Any embodiment or design described as "exemplary" or "for example" in the embodiments of the present application should not be interpreted as being more preferred or more advantageous than other embodiments or design solutions. Specifically, the use of words such as "exemplary" or "for example" is intended to present related concepts in a specific way.

The technical solution of the present application is described in detail below with reference to the accompanying drawings.

Example 1

As shown in FIG. 1 , this embodiment provides a method for real-time display of geographic spatial information based on collaborative office software, which is used to query and display geographic information data corresponding to the data category to be queried of the corresponding address to be queried in the collaborative office software according to the input text information, and includes the following steps:

The input text data is obtained, and the address keywords and data keywords in the text data are identified. In this embodiment, the specific address that the user wants to display (through the address keyword) and the data corresponding to the address that the user wants to display (through the data keyword) are obtained by identifying the input text data. For example, if the user inputs "satellite cloud map of Chengdu", the specific address that the user wants to display can be obtained through the address keyword "Chengdu", and the data corresponding to the specific address that the user wants to display can be obtained through the data keyword "satellite cloud map".

The address to be queried is generated according to the address keyword, and the data category to be queried is generated according to the data keyword; in this embodiment, the corresponding address to be queried can be generated according to the identified address keyword, and the corresponding data category to be queried can be generated according to the data keyword. It can be understood that there can be multiple addresses to be queried and multiple data categories to be queried, and this application does not make specific limitations on this.

Call the GIS plug-in to obtain the geographic information data corresponding to the data category to be queried of the address to be queried in real time; that is to say, this application encapsulates Web GIS as a plug-in for collaborative office software, namely, a GIS plug-in, and provides it to the browser kernel for calling through the API interface standard. The browser itself only needs to care about the interface logic and leave the relevant functions to the browser kernel to execute (or complete). In this way, the geographic information data corresponding to the data category to be queried of the address to be queried can be obtained in real time by calling the GIS plug-in.

The geographic information data is displayed in real time in the information display area of the collaborative office software. In this way, the real-time display of the geographic information data of a certain location can be realized in the collaborative office software.

Through the above technical solution,

First, by encapsulating Web GIS as a plug-in for collaborative office software, this application eliminates the need to switch between collaborative office software and Web GIS when real-time display of relevant geographic information of a certain location is needed. Users can simultaneously display relevant text and real-time display of WebGIS-related geographic information only in the collaborative office software interface.

Second, the GIS plug-in is dependent on collaborative office software, but also has a certain degree of independence. Thus, on the one hand, in the process of using collaborative office software for data processing (e.g., editing documents and pictures, calculating tables, etc.), the GIS plug-in will not use local computing resources. The GIS plug-in will only use local computing resources when it is called, which is conducive to improving the efficiency of local computing resources and reducing the degree of parallel use of computing resources. On the other hand, through the method of the present application, collaborative office software and Web GIS will only be used at the same time when the GIS plug-in is called, which is conducive to reducing the impact of network bandwidth on the response speed of related data requests.

Through the technical solution of this application, the powerful processing power and professional calculation result return capability of GIS system services can be fully utilized, and the result return of the integrated API can be used to empower GIS applications in collaborative office software, thereby injecting the following functions into collaborative office software:

1. Office collaboration software obtains point data of geographic information through GIS plug-ins;

2. The office collaboration software can dynamically obtain geographic information data through GIS plug-ins;

3. Office collaboration software analyzes and processes geographic information data through GIS plug-ins;

4. The GIS plug-in of office collaboration software obtains the map data of geographic information and performs visual rendering operations on the information;

5. Office collaboration software provides a friendly interactive method to ensure that the above functions can be achieved without leaving or switching the current environment.

In this embodiment, it is understood that the browsers mentioned above can be a variety of specific mainstream browsers currently on the market, for example, a browser based on the Trident core (for example, Internet Explorer), a browser based on the Gecko core (for example, Mozilla Firefox, Netscape), a browser based on the WebKit core (for example, Safari, Chrome), or a browser based on the Presto core (for example, Opera). This application does not make specific limitations on this.

In one embodiment of the present application, the collaborative office software of the present application is any one of the following software: Office365, Office based on Kedao Cloud, WPS Office, Page Office, Only office.

It is understandable that the collaborative office software of the present application can be applied to a variety of clients, for example, the Web side (referring to various applications accessed through the Internet, including web pages written in HTML, CSS and JavaScript, Web applications and Web services, etc.), the Android side (mobile applications developed based on the Android operating system), the IOS side (mobile applications based on Apple’s self-developed mobile operating system), etc., and the present application does not make specific limitations on this.

In one embodiment of the present application, the method of the present application also includes: encapsulating the geographic information system module as a GIS plug-in of the collaborative office software, installing and loading the GIS plug-in in the collaborative office software; encapsulating the development kit corresponding to the GIS plug-in on the server side of the collaborative office software, and constructing a global object tool class in the development kit, the global object tool class including atmospheric environment information objects, image layer information objects, terrain layer information objects, surface information objects, place names and landmark information objects, and address coordinate information objects; performing asynchronous communication between the server side of the collaborative office software and the GIS plug-in, so that the geographic information data acquired by the server side of the collaborative office software is transmitted to the GIS plug-in.

In this implementation, the development kit is used to encapsulate the geographic information function of the stratum and expose it to external use through an interface, so that users do not need to care about its internal implementation logic when using it.

In one implementation of the present application, the asynchronous communication between the server of the collaborative office software of the present application and the GIS plug-in specifically includes:

For the server where the development package is located:

Step S1-1: First, create a Socket instance and bind it to a port number. Then, start listening through the Listen method and set the listening quantity threshold. In this implementation, to avoid port number conflicts, the port number bound to the Socket instance can be set to a port number greater than 5000, for example, port 20000. At the same time, the listening quantity threshold can be set as needed, for example, the listening quantity threshold can be set to 10.

Step S1-2: Use Begin Accept and End Accept to asynchronously monitor the client where the GIS plug-in is located. When a client connects, the callback function is automatically called. At this time, the heartbeat starts and the client's Socket and heartbeat information are added to the global dictionary.

Step S1-3: When a client successfully connects in step S1-2, asynchronous operation can be started and data from the client can be received through BeginReceive and End Receive; after receiving data from the client, the callback function is automatically called;

Step S1-4: Use Begin Send and End Send to send data. After the data is sent successfully, the callback function is automatically called. The EndSend method returns the number of bytes sent successfully.

The client for the GIS plug-in includes:

Step S2-1: Create a new Socket instance and start to use Begin Connect and End Connect to asynchronously connect to the server. When the connection is successful, the callback function is automatically called to start the heartbeat and receive and send data.

Step S2-2: Use Begin Send and End Send to send data. After the data is sent successfully, the callback function is automatically called. The EndSend method returns the number of bytes sent successfully.

Step S2-3: Receive data from the client through Begin Receive and End Receive; when the data from the client is received, the callback function is automatically called.

In this implementation, both the client and the server use the WPF interface, or the client uses the WEB interface, and the server provides data services based on geographic data, thus realizing the functions of heartbeat, disconnection reconnection, and one server corresponding to multiple clients. Through the above asynchronous communication method, the communication and synchronization problems between the server where the development kit is located and the client where the GIS plug-in is located can be effectively solved.

Since the size of the received data is uncertain, in one embodiment of the present application, in step S1-3, the server can be temporarily set to receive 1024 bytes each time. According to the Available data, if it is determined that the received data is greater than 1024 bytes, the received data will be concatenated. At the same time, according to the Available attribute, the number of bytes that can be read is determined. If it is less than or equal to 0, it indicates that the data reception is completed.

In this implementation, it is particularly important to note that the byte[] of 1024 bytes received each time cannot be defined as a global variable, but needs to correspond to each Socket client one-to-one, otherwise errors may occur when receiving messages from multiple clients.

In one embodiment of the present application, the method of the present application further includes:

The data categories to be queried may include: subjects to be queried, time conditions and data display conditions;

Subjects to be queried may include: atmospheric environment information, GIS image layer information, GIS terrain layer information, area information, place name and landmark information, address coordinate information;

The time conditions may include: time conditions based on years, time conditions based on quarters, time conditions based on months, time conditions based on days, time conditions based on hours, time conditions based on minutes, and time conditions based on seconds;

The data display conditions include: display conditions arranged one by one in the positive order of the time conditions, and display conditions arranged one by one in the reverse order of the time conditions.

In this way, more data display content and methods can be provided to users in collaborative office software to improve the display effect. For example, in an exemplary implementation, a user can enter "the annual urban outline growth of Chengdu from 2014 to 2023", the identified address keyword is "Chengdu", the identified subject to be queried is "domain information", the identified time condition is "time condition based on years", and the identified data display condition is "display conditions arranged one by one in the positive order of time conditions (2014 to 2023)".

In one embodiment of the present application, the data display conditions of the present application may also include: a comparative display condition of a subject to be queried of multiple addresses to be queried; or, a comparative display condition of a subject to be queried of multiple addresses to be queried in positive or reverse order according to time conditions. In this way, a more intuitive data comparison display can be provided to users in the collaborative office software to further improve the display effect. For example, in an exemplary embodiment, the user can enter "Comparison of the annual urban outline growth of Chengdu and Chongqing from 2014 to 2023", the identified address keywords are "Chengdu" and "Chongqing", the identified subject to be queried is "face area information", the identified time condition is "time condition based on the number of years", and the identified data display condition is "Comparative display condition of a subject to be queried of multiple addresses to be queried (2014 to 2023)".

In one embodiment of the present application, after calling the GIS plug-in to obtain the geographic information data corresponding to the data category to be queried of the address to be queried in real time, the method of the present application may also include: generating a web page hyperlink based on the acquired geographic information data, the web page hyperlink pointing to the web page corresponding to the real-time geographic information of the address to be queried. In this way, when local computing resources and network bandwidth are sufficient, it is convenient for operators to directly display real-time geographic information intuitively.

In one embodiment of the present application, the element content in the web page hyperlink of the present application is a number of characters in the geographic information data displayed in the information display area of the collaborative office software, the target attribute in the web page hyperlink is the web page address corresponding to the real-time geographic information of the address to be queried, and the href attribute in the web page hyperlink is set to an absolute path. In this way, the operator can directly jump to the web page address corresponding to the real-time geographic information by clicking on the several characters corresponding to the web page hyperlink.

In one embodiment of the present application, the real-time display of geographic information data in the information display area of the collaborative office software specifically includes: dividing the geographic information data into a first area, a second area and a third area for display, wherein the first area is used to display the address to be queried, and the second area is used to display the address coordinates of the address to be queried; the third area is used to display the subjects to be queried corresponding to the address to be queried in real time, and the subjects to be queried include any one of the following subjects: atmospheric environment information, GIS image layer information, GIS terrain layer information, area information, place names and landmark information.

In this way, the address to be queried can be displayed through the first area, the second area can accurately display the address coordinates corresponding to the address to be queried (to avoid the problem of incorrect display information due to addresses with the same name), and the third area can display the relevant data of the subject to be queried in real time.

The above are only specific implementations of the present application, but the protection scope of the present application is not limited thereto, and any changes or substitutions within the technical scope disclosed in the present application should be included in the protection scope of the present application. Therefore, the protection scope of the present application should be based on the protection scope of the claims.

Claims (10)

1. The method is characterized by comprising the following steps of:

Acquiring input text data, and identifying address keywords and data keywords in the text data;

generating an address to be queried according to the address key words, and generating a data category to be queried according to the data key words;

invoking a GIS plug-in to acquire geographic information data corresponding to the data category to be queried of the address to be queried in real time;

and displaying the geographic information data in real time in an information display area of the collaborative office software.

2. The method for real-time presentation of geospatial information based on collaborative office software according to claim 1, further comprising:

The geographic information system module is packaged into a GIS plug-in of the collaborative office software, and the GIS plug-in is installed and loaded in the collaborative office software;

Packaging a development package corresponding to the GIS plug-in unit at a service end of the collaborative office software, and constructing a global object tool class in the development package, wherein the global object tool class comprises an atmospheric environment information object, an image layer information object, a topography layer information object, a surface area information object, a place name, a landmark information object and an address coordinate information object;

asynchronous communication is carried out between the service end of the collaborative office software and the GIS plug-in, so that geographic information data acquired by the service end of the collaborative office software is transmitted to the GIS plug-in.

3. The method for displaying geospatial information in real time based on collaborative office software according to claim 2, wherein the asynchronous communication between the server side of the collaborative office software and the GIS plug-in specifically comprises:

For the server side where the development kit is located:

Step S1-1: firstly, creating a Socket instance, binding the Socket instance to a port number, starting monitoring through a Listen method, and setting a monitoring quantity threshold;

Step S1-2: using Begin Accept and END ACCEPT to asynchronously monitor the client where the GIS plug-in is located, automatically calling a callback function after the client is connected, starting heartbeat at the moment, and adding Socket and heartbeat information of the client into a global dictionary;

Step S1-3: after the client is successfully connected in the step S1-2, the asynchronization can be started and data from the client can be received through Begin receivers and END RECEIVE; when receiving the data from the client, automatically calling a callback function;

Step S1-4: sending data by using the Begin Send and the End Send, and automatically calling a callback function after the sending is successful, wherein the End Send method returns the number of bytes successfully sent;

the client where the GIS plug-in is located comprises:

Step S2-1: a Socket instance is newly built and asynchronously connected to a server by using Begin Connect and End Connect, and a callback function is automatically called after connection is successful, so that heartbeat can be started, and sending data is received;

Step S2-2: sending data by using the Begin Send and the End Send, and automatically calling a callback function after the sending is successful, wherein the End Send method returns the number of bytes successfully sent;

Step S2-3: receiving data from the client through Begin received and END RECEIVE; and after receiving the data from the client, automatically calling a callback function.

4. The method for real-time presentation of geospatial information based on collaborative office software according to claim 3, wherein in step S1-3,

And the server side receives 1024 bytes each time, if the received data is judged to be greater than 1024 bytes according to the Available attribute, the received data is spliced, meanwhile, the readable byte number is judged according to the Available attribute, and if the readable byte number is less than or equal to 0, the data receiving is finished.

5. The method for real-time presentation of geospatial information based on collaborative office software according to claim 1, further comprising:

The data category to be queried comprises: subject to be queried, time condition and data display condition;

The subjects to be queried include: atmospheric environment information, GIS image layer information, GIS topographic layer information, area information, place name and landmark information and address coordinate information;

the time conditions include: a time condition based on years, a time condition based on seasons, a time condition based on months, a time condition based on days, a time condition based on hours, a time condition based on minutes, and a time condition based on seconds;

the data display conditions include: display conditions arranged one by one in the positive order of time conditions, display conditions arranged one by one in the reverse order of time conditions.

6. The method for displaying geospatial information based on collaborative office software according to claim 5, wherein the data display conditions further include:

comparing display conditions of a certain object of a family to be queried of a plurality of addresses to be queried; or alternatively

And comparing and displaying the conditions of a certain subject to be queried of the plurality of addresses to be queried according to the forward sequence or the reverse sequence of the time conditions.

7. The method for displaying geospatial information in real time based on collaborative office software according to claim 1, wherein after invoking a GIS plug-in to obtain the geographic information data corresponding to the data category to be queried of the address to be queried in real time, the method further comprises:

And generating a webpage hyperlink according to the data based on the acquired geographic information, wherein the webpage hyperlink points to a webpage corresponding to the real-time geographic information of the address to be queried.

8. The method for displaying geospatial information based on collaborative office software according to claim 7, wherein the content of elements in the web page hyperlink is a plurality of words in the geographic information data displayed in the information display area of the collaborative office software, the target attribute in the web page hyperlink is a web page address corresponding to the real-time geographic information of the address to be queried, and the href attribute in the web page hyperlink is set as an absolute path.

9. The method for displaying geospatial information in real time based on collaborative office software according to claim 1, wherein displaying the geospatial information data in real time in the information display area of the collaborative office software specifically comprises:

dividing geographic information data into a first area, a second area and a third area for displaying, wherein the first area is used for displaying an address to be queried, and the second area is used for displaying address coordinates of the address to be queried;

The third area is used for displaying the subjects to be queried corresponding to the addresses to be queried in real time, and the subjects to be queried comprise any one of the following subjects: atmospheric environmental information, GIS image layer information, GIS topographic layer information, area information, place names and landmark information.

10. The geospatial information real-time presentation method based on co-office software according to any one of claims 1 to 9, wherein the co-office software is any one of the following:

Office365, cloud-based Office, WPS Office, page Office, only Office.